| | Monday – November 5th, 2018 Mirror Tech/ SBIR/ STTR Workshop 2018
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# | Presenter | Title | | Org |
| | Government Technology Needs (OPEN) | | |
1 | Ganel | PCOS-COR-Technology-Needs | | NASA |
2 | Crill | NASA Exoplanet Exploration Program Technology Needs | | JPL |
3 | Morgan | HAbEx Technology Needs | | NASA |
4 | West | LUVOIR Technology Needs | | NASA |
5 | Gaskin | Technology Needs for LYNX: Mirrors, Coatings and Metrology | | NASA |
6 | Livas | LISA Telescope Challenges | | NASA |
| | SBIR Workshop (OPEN) | | |
7 | Lewis | NASA SBIR Program Updates for 2019 Solicitation | | JPL |
8 | Shaklan | SBIR S2 topic Advanced Telescope Systems | | JPL |
9 | Stahl | NASA 2019 SBIR Subtopic S2.03 | | NASA |
10 | Shiri | NASA 2019 SBIR Subtopic S2.04 | | NASA |
| | OPEN TECHNOLOGY SESSIONS | | |
| | Additive Manufacturing Mirror Technology (OPEN) | | |
11 | Casstevens | Additively Manufactured very lightweight diamond turned aspheric mirrors – phase 2 | | Dallas Optical Systems |
12 | DeFisher | Additive Manufacture of SiC Mirrors | | OptiPro |
13 | Goodman | 3D Printed SiC Mirror Scalable to Meter-Class Segments for Far-Infrared Surveyor- Phase 2 | | Goodman Tech |
14 | Goodman | Ultra-Lightweight, Ultra-Stable RoboSiC Additively Manufactured Lasercom Telescope-Phase 1 | | Goodman Tech |
15 | Goodman | Near-Zero CTE 3D Printed RoboSiC Deployable Truss Structures with Active Precision Adjustment-Phase 1 | | Goodman Tech |
| | SiC Mirror Technology (OPEN) | | |
16 | Han | Application of extended MARI concept to SiC mirrors | | KASI |
| | Space Telescope Architectures (OPEN) | | |
17 | Crowe | NIAC Kilometer Space Telescope | | Raytheon |
18 | Kugler | Precision In-Space Manufacturing for Structurally-Connected Space Interferometry | | Made In Space |
| | HabEx (OPEN) | | |
19 | P. Stahl | HabEx Architecture-A Telescope Specification and Design Overview | | NASA |
20 | M. Stahl | HabEx WFE Stability Specification Derived from Coronagraph Leakage | | NASA |
21 | P. Stahl | HabEx WFE Stability Error Budget Definition & STOP Modeling | | NASA |
| | Tuesday – November 6th, 2018 | | |
22 | P. Stahl | Multi-Variable Cost Model for Ground and Space Telescopes | | NASA |
23 | Dipirro | Technology Needs for OST | | NASA |
| | Stable Telescope Technology (OPEN) | | |
24 | Eng | Predictive Thermal Control | | NASA |
25 | Monroe | Ultra-Stable ALLVAR Alloy Development for Space Telescopes | | Thermal Expansion Solutions |
26 | Fischer | Ultra-Stable Zero-CTE HoneySiC and H2CMN Mirror Support Structures | | ASCM |
27 | Keski-kuha | Ultra stable structures SAT status | | NASA |
28 | Park | Ultra-Stable Picometer Scale Mirror Assembly Demonstrator | | SAO |
| | Mirror Technology and Free-Form Optics (OPEN) | | |
29 | Easter | Large-Scale, Low Cost, Molded SiOC Mirror Component | | Semplastics |
31 | Blalock | Manufacturing of a Multi- Surface Freeform Telescope | | Optimax |
32 | Blalock | Improving Freeform Manufacturing Using Deflectometry | | Optimax |
33 | Conkey | Freeform Optics for Optical Payloads with Reduced Size and Weight | | Voxtel |
| | Optical Metrology Technology (OPEN) | | |
34 | Shane | Programmable Phase Nulling Interferometer for Giant Mirrors | | Boulder Nonlinear |
35 | Shiri | Low Coherence Wavefront Probe for Nanometer Level Free-Form Metrology | | Apre |
36 | Tucker | Improving Precision Measurements for Space Structure Materials | | Southern Research |
| | X-Ray Technology (OPEN) | | |
37 | Tamkin | IXPE Mirror Fabrication: Diamond Turning of Mirror Mandrels | | Wavefront Tech |
38 | Tyurina | BeatMark Software to reduce the cost of X-Ray mirror fabrication | | Second Star Algonumerix |
| | Coating Technology (OPEN) | | |
39 | Quijada | E-Beam Generated Plasma Etching for Developing High-Reflectance Mirrors for Far-Ultraviolet Astronomical Instrument Applications | | NASA |
40 | Sheik | Precision Optical Coatings for Large Space Telescope Mirrors | | Zecoat |
41 | Alfred | Exploration of Amorphous Silicon as a Removable Barrier Layer for Aluminum Mirror Coatings | | BYU |
42 | Linford | Measuring the Growth of Aluminum Oxide under Fluoride Barrier Layers by Ellipsometry and XPS | | BYU |
43 | Ignatiev | The In-Space Vacuum Deposition of Reflecting Coatings for the Fabrication of Functional Mirror Materials | | Lunar Resources, Inc. |
| | Straylight Suppression Technology (OPEN) | | |
44 | Taylor | Robust CNT Based Coating for Scattered Light Suppression | | Faraday Tech |
45 | Kennel | Microwave syntheses of graphene decorated carbon nanotubes for stray light suppression | | Applied Sciences |
46 | Hagopian | Proximity Glare Suppression using Carbon Nanotubes | | Adv Nanophotonics |
| | Wednesday – November 7th, 2018 | | |
| | Exoplanet Exploration Program (ExEP) Technology (OPEN) | | |
47 | Trauger | The Coronagraph Instrument on WFIRST | | JPL |
48 | Knight | ULTRA: Ultra-stable Large Telescope Research & Analysis | | Ball |
49 | Dewell | System-Level Segmented Telescope Design | | LMCO |
50 | Bierden | MEMS Deformable Mirrors | | Boston MM |
51 | Tabiryan | Broadband Vector Vortices for High Contrast Coronagraphy | | BEAM Engineering |
52 | Willems | NASA Exoplanet Exploration Program Starshade Technology Activity | | JPL |
53 | Harness | Subscale Starshade Test Results | | Princeton U |
54 | Hamilton | Starshade Optical Edge Polymer-Based Contaminant Control/Elimination Coating | | Photonic Cleaning |
55 | Freebury | Starshade Optical Edge Polymer-Based Contaminant Control/Elimination Coating | | Tendeg |
| | Deformable Mirror Technology (OPEN) | | |
56 | Qu | 32×32 switch array for driving a deformable mirror with voltage-resolution beyond 16-bit | | Sunlite Science & Technology, Inc. |
| | ITAR TECHNOLOGY SESSIONS | | |
| | Glass Technology (ITAR) | | |
56 | Edwards | Today’s ULE | | Sunlite Science & Technology, Inc. |
| | Mirror Technology (ITAR) | | |
58 | Mooney | Advanced Mirror Construction – Additively Manufactured Mirrors and Rapid Deterministic Finishing | | Harris |
59 | East | ULTRA Study – Analysis Results for Picometer-Level Stability of Large Mirror Segments | | Harris |
| | Active Mirror Technology (ITAR) | | |
60 | Markov | Dual-Sensor system for performance characterization of the large-size deformable mirrors | | Advanced Systems & Technologies, Inc. |
| | JWST (ITAR) | | |
61 | Knight | JWST OTIS Optical Performance | | BASD |
62 | Chonis | Cross Check Matrix | | BASD |
63 | Wells | Cryovac Testing of the JWST Primary Mirror, Updated alignment and WFE results | | Harris |
64 | Coyle | Cryovac Optical Alignment Testing Results | | BASD |
65 | Chonis | Actuator Performance | | BASD |
66 | Lightsey | A retrospective on JWST PMSA manufacturing & verification | | BASD |
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